DeepRacer on Physical Track: Parameters Exploration and Performance Evaluation
Sinan Koparan, Bahman Javadi

TL;DR
This study evaluates hyperparameter effects and object avoidance capabilities of AWS DeepRacer on a physical track, highlighting differences from simulated environments and identifying ongoing challenges.
Contribution
It systematically explores hyperparameter impacts and assesses object avoidance transfer from simulation to real-world settings for DeepRacer.
Findings
Higher gradient descent batch size improves performance in simulation.
Huber loss outperforms MSE in both environments.
Object avoidance is effective in simulation but challenging physically.
Abstract
This paper focuses on the physical racetrack capabilities of AWS DeepRacer. Two separate experiments were conducted. The first experiment (Experiment I) focused on evaluating the impact of hyperparameters on the physical environment. Hyperparameters such as gradient descent batch size and loss type were changed systematically as well as training time settings. The second experiment (Experiment II) focused on exploring AWS DeepRacer object avoidance in the physical environment. It was uncovered that in the simulated environment, models with a higher gradient descent batch size had better performance than models with a lower gradient descent batch size. Alternatively, in the physical environment, a gradient descent batch size of 128 appears to be preferable. It was found that models using the loss type of Huber outperformed models that used the loss type of MSE in both the simulated and…
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Taxonomy
TopicsIndoor and Outdoor Localization Technologies · Energy Efficient Wireless Sensor Networks · Fire Detection and Safety Systems
